Amtrak CEO Flynn House Railroads Testimony May 6 20201
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Testimony of William J. Flynn Chief Executive Officer National Railroad Passenger Corporation Before the United States House of Representatives House CommiFee on Transportation & Infrastructure SubcommiFee on Railroads, Pipelines, and Hazardous Materials When Unlimited Potential Meets Limited Resources: The Benefits and Challenges of High-Speed Rail and Emerging Rail Technologies Thursday, May Q, RSRT TT:SS a.m. Rayburn House Office Building, Room RTQU Amtrak T MassachuseFs Avenue, N.W. Washington, DC RSSST-TYST (RSR) \SQ-]\T^ WHEN UNLIMITED POTENTIAL MEETS LIMITED RESOURCES: THE BENEFITS AND CHALLENGES OF HIGH-SPEED RAIL AND EMERGING RAIL TECHNOLOGIES Introduction Good morning, Chairman Payne, Ranking Member Crawford, and Members of this SubcommiFee. Thank you for inviting me to testify at this hearing on behalf of Amtrak. My name is William Flynn, and I am Amtrak’s Chief Executive Officer. I am particularly honored to be representing Amtrak at this hearing. It takes place six days after Pres- ident Biden traveled to Philadelphia to join us in celebrating Amtrak’s fiftieth anniversary. The American Jobs Plan he has proposed, which would provide $^S billion for Amtrak and high- speed and intercity passenger rail, is an important first step in developing an improved passenger rail system that would enhance mobility by serving more communities; provide more frequent and more equitable service; generate significant economic benefits; and reduce greenhouse gas emissions. Amtrak has accomplished a great deal since we began service on May T, T\UT with a mandate to transform unprofitable intercity passenger rail services operated by private railroads into “a modern, efficient intercity railroad passenger service”1 – with an initial appropriation of only $YS million. In thinking about where Amtrak, and high-speed rail service in North America have come over the past half century, the title of today’s hearing – “When Unlimited Potential Meets Limited Resources” – seems particularly apt. The potential high-speed rail offered to revolutionize intercity travel was one of the major reasons Congress created Amtrak. The Metroliner, the United States’ first high-speed train, had begun service between New York City and Washington in T\Q\, the year before the enactment of the Rail Passenger Service Act (RPSA) that established Amtrak. Many members of Congress who had experienced the Metroliner recognized the potential high-speed rail service had to, in the words of the RPSA, “provide fast and comfortable transportation between crowded urban areas2” throughout the United States. What Is High-Speed Rail? When most Americans hear the words “high-speed rail,” what comes to mind are sleek bullet trains racing along newly-constructed rail lines on elevated viaducts. People who live in countries that have extensive high-speed rail networks would consider that definition of high-speed rail too narrow. In fact, “high-speed rail” encompasses several different types of services arranged 1 Rail Passenger Service Act of 3456, Pub. L. No. 43->3?, Sec. 363. 2 Ibid. T along a continuum with generally fuzzy boundaries – and we need all of them in the United States if we are to realize high speed rail’s potential. On one end of the continuum are the high-speed bullet trains, such as Japan’s Shinkansen or the extensive network of high-speed services China has developed over the past Tk years that operate on dedicated, custom built electrified rail lines at speeds that approach or exceed RSS mph. Their costs – both monetary and from the environmental impacts associated with their construction – can be justified in corridors with high travel volumes that are anchored by large cities; where existing rail lines are at capacity; where the distances are too long for anything other than very high speed service to be trip time competitive with flying; and/or where topographical characteristics such as mountains or other factors make it infeasible to significantly increase speeds on conventional rail lines. Los Angeles to Northern California is the perfect example of this, which is why we need to build California High Speed Rail. Next are high-speed corridors like Amtrak’s Boston-to-Washington Northeast Corridor (NEC) or Great Britain’s West Coast Main Line connecting London and Glasgow, where frequent high- speed trains operating at maximum speeds of TRk to TQS mph share electrified tracks with con- ventional intercity, commuter and freight trains. Both the NEC and the West Coast Main Line have high train densities and passenger volumes that have reached the point where development of dedicated high-speed rail lines over portions of their routes is necessary to accommodate grow- ing demand, and also to make rail more competitive with air travel for trips between their endpoint cities, which are approximately YSS miles apart. In the U.K., this has taken the form of the roughly $T]k billion HSR program, a series of newly-built, dedicated RRk mph lines that will interface with existing high-speed and conventional lines now under construction to connect London, the Midlands and Northern Britain. The German system – Europe’s largest in terms of annual passengers – perhaps best represents the strategy of incremental development of high-speed rail. Starting with an extensive conven- tional network and a significant freight rail sector in place, Germany has strategically developed T^Q mph or higher high-speed segments to speed up certain city pair and international routes, while investing in conventional routes to bring them up to TSS to Tkk mph standards, to achieve overall trip times which are competitive with driving and flying. Thus, out of Deutsche Bahn’s roughly RT,SSS-mile network, only approximately T,]SS miles operate at speeds above Tkk mph as of RST^, yet the network serves as the primary mode of intercity travel for many. To put this in perspective, Germany is roughly half the size of Texas but has a total network of equal size to Amtrak’s that provided TkT million intercity trips in RST\. R While some definitions of high-speed rail use a higher threshold, the Passenger Rail Investment and Improvement Act of RSS^ (PRIIA) defines “high-speed rail” as “intercity passenger rail ser- vice that is reasonably expected to reach speeds of TTS mph.”3 Corridors with maximum speeds of TTS mph, four of which Amtrak operates, can offer faster trip times than driving and be very competitive with flying. Importantly, they can be developed at a much lower cost than faster corridors in markets where passenger demand would not justify the major capital investments, such as electrification and elimination of grade crossings, that are generally required to operate trains at higher speeds. In nearly every nation, conventional rail service is the foundation for the development of success- ful high-speed rail service. Improvement or initiation of conventional rail service can occur much more quickly than construction of new high-speed rail lines, and can set the stage for high-speed rail service by building a ready market and existing passenger ridership that high-speed rail can tap when it arrives. Conventional rail service also feeds high-speed rail, providing connecting passengers and allowing high-speed services to be extended over conventional speed lines to ex- tend the reach of high-speed trunk lines. The Path Ahead Instead of asking how we can develop high-speed rail lines, what we should be asking is how – to paraphrase Amtrak’s initial and current statutory goals – we can develop a modern, efficient, trip time competitive intercity passenger rail network throughout the United States that includes high-speed rail. If we focus myopically on the development of dedicated high-speed rail lines, or on new technologies that share most of their characteristics, we will not tap intercity passenger rail’s potential in the many locations around the nation where it can play a meaningful role. And we will continue to make liFle progress in addressing climate change on a national scale, as we will leave most of the country waiting at the station for the decades it typically takes to de- velop even one new high-speed line. For example, the UK’s HSR, for which planning began in earnest in RSTR, is not set to begin operation on its initial segment until as late as RS]S, with the full project not expected to be complete until RSYS. We also cannot ignore the fact that we al- ready have a high-speed railroad in the United States – the NEC between Washington and Boston – on which relatively modest investments could yield large improvements in trip times, ridership, economic impacts and reduced greenhouse gas emissions. Much of the NEC’s success is due to factors that do not exist at similar levels anywhere else in the United States, particularly its very high population density along a linear corridor an- chored by the country’s largest city and extensive network of conventional rail, commuter and transit services that predates the development of high-speed rail. However, that does not 3 B4 U.S.C. EF36F(b)(B). ] mean that the NEC is the only U.S. corridor well suited for high-speed rail service. Rather, it helps to illustrate, as a prototype, the sorts of conditions that corridors in the U.S. will likely need to be successful –robust public transit connectivity, high-density land-use, significant populations, high driving and parking costs, significant congestion on other modes, economic agglomeration, and so forth. So, while Amtrak strongly supports development of new high-speed corridors, we cannot focus only on the dream of funding and constructing a large number of them from scratch, which is not going to happen soon enough to meet the near term need for more passenger rail service, or take a chance that new technologies will eventually prove viable.